quality Industrial Oxygen Generator & Medical Oxygen Generator manufacturer

​Selecting the correctly sized oxygen generator is paramount to achieving optimal efficiency and meeting production demands. Sizing is a two-fold process: determining the required flow rate (measured in Normal Cubic Meters per Hour - Nm³/h) and the necessary purity level (typically 93-95%). Undersizing leads to process starvation and inadequate oxygen supply, while oversizing results in wasted capital investment and higher than necessary energy consumption. The calculation begins with a detailed audit of all oxygen-consuming equipment and processes in the facility. The peak simultaneous demand, rather than just the total theoretical demand, must be established. It's also crucial to consider future expansion plans to ensure the system can scale. Factors such as ambient air conditions (temperature and humidity) at the installation site also impact the compressor's performance and must be factored in. Our engineering team typically conducts a comprehensive analysis of your specific needs, using this data to recommend a generator model that provides a safe margin above your peak demand without being excessively large, ensuring maximum efficiency and reliability.

​Investing in an on-site oxygen generator is a strategic decision that leads to dramatic and sustained operational cost reduction. The most significant saving comes from eliminating recurring expenses associated with third-party suppliers. This includes the costs of the oxygen itself, cylinder rental fees, hazardous delivery charges, and "run-out" emergency premiums. Furthermore, liquid oxygen involves substantial evaporative losses (often up to 5% per day), a cost that is completely eradicated with on-site generation. The operational cost becomes primarily the electricity required to power the air compressor and control system. This results in a predictable, stable cost per cubic meter of oxygen, insulating your business from market price fluctuations and supply chain disruptions. The return on investment (ROI) is typically achieved within 12 to 24 months, after which the oxygen is produced at a fraction of the delivered cost. Additional savings are realized through reduced administrative overhead for managing orders and deliveries, lower insurance premiums due to reduced on-site hazards, and freed-up space previously used for storage. This transition fundamentally shifts oxygen from a variable expense to a fixed, manageable cost center.

​ Pressure Swing Adsorption (PSA) technology is the engineering marvel that enables reliable and efficient oxygen production on-site. Its reliability stems from a simple, robust design with no moving parts within the separation towers themselves. The key component is the Zeolite Molecular Sieve, a synthetically produced aluminosilicate mineral with a precise pore size. When compressed air is forced through the sieve, the smaller nitrogen molecules are trapped within these pores, while the larger oxygen and argon molecules pass through. The system's continuous output is ensured by the twin-tower design. While one tower is actively separating air and producing oxygen, the other is undergoing regeneration. This regeneration process involves rapidly depressurizing the tower to release the adsorbed nitrogen, which is vented away. A small portion of the produced oxygen is often used to purge the second tower, ensuring it is clean and ready for the next cycle. The control system seamlessly alternates the valves between the two towers every few seconds, creating a steady, pulsation-free flow of oxygen. This clever design ensures non-stop operation and consistent purity levels, typically between 91% and 95%, which is ideal for most industrial applications.